Patent Portfolio
14 registered patents with the Korean Intellectual Property Office (KIPO) covering RF plasma generation from first principles. Method patents that protect physics, not products.
14 registered patents with the Korean Intellectual Property Office (KIPO) covering RF plasma generation from first principles. Method patents that protect physics, not products.
Every registered patent in the WayvGear portfolio was filed with the Korean Intellectual Property Office (KIPO). The portfolio covers the full RF plasma generation stack — from the physics of gas-to-plasma ignition through multimode cavity design, impedance matching under chaotic load conditions, and final ISM band application methods for controlled environment agriculture and industrial processing.
WayvGear's intellectual property is also registered under the AllianceNP umbrella — the same KJ Kim / IP ownership structure — ensuring clean chain of title across all licensing and commercialization activities.
WayvGear's IP strategy deliberately prioritizes method patents grounded in physics over implementation patents tied to specific hardware configurations. A method patent covering bifurcation analysis for plasma ignition is not limited to a particular circuit topology, transistor family, or cavity geometry — it covers every implementation that uses that analytical approach to achieve plasma ignition.
This distinction matters enormously for licensing durability. Hardware evolves. Transistor platforms change. Cavity geometries are optimized. But the underlying physics — saddle-node bifurcations, KAM theory, OGY control — does not change. Method patents grounded in these principles remain valid and enforceable regardless of how the hardware implementation evolves around them.
The result is a portfolio where each patent covers a broader claim space than its physical footprint suggests, and where the aggregate portfolio creates layered protection across the entire RF plasma design space relevant to WayvGear's markets.
The plasma ignition patents cover methods for precisely controlling the gas-to-plasma transition using nonlinear dynamical systems theory. The gas-to-plasma phase transition is modeled mathematically as a saddle-node bifurcation — a well-characterized event in dynamical systems where a small change in a control parameter causes a sudden, discontinuous state change.
By modeling ignition as bifurcation rather than empirical threshold detection, WayvGear's systems can predict the exact RF power level and frequency combination needed to reliably initiate plasma formation across varying gas compositions, pressures, and temperatures. This produces consistent, repeatable ignition where conventional approaches would require iterative power ramping or manual adjustment.
Uniform plasma density across an illumination volume is not an engineering preference — it is a physics requirement for consistent light output in agriculture applications and consistent surface treatment in industrial applications. Single-mode cavities produce standing wave patterns with high-field and low-field nodes, creating unacceptable variation in plasma density across the cavity volume.
WayvGear's multimode cavity patents cover cavity geometries designed using Kolmogorov–Arnold–Moser (KAM) theory to produce intentionally chaotic mode mixing. In a KAM-designed cavity, energy distributes ergodically — visiting all regions of the volume with equal probability over time. The standing wave problem dissolves into statistically uniform energy density.
Plasma impedance is not a fixed value. As plasma density, temperature, and chemistry evolve during operation, the load impedance presented to the RF amplifier shifts continuously — often in chaotic, unpredictable ways. Conventional impedance matching approaches (fixed networks, slow tuning loops) cannot track these changes fast enough to maintain efficient power transfer.
WayvGear's impedance matching patents cover two complementary active control approaches. The OGY (Ott–Grebogi–Yorke) method applies small, precisely calculated perturbations to the system to stabilize otherwise chaotic impedance trajectories. Pyragas time-delay feedback creates a self-referential control loop that uses the system's own history to predict and pre-compensate impedance shifts before they cause power transfer degradation.
Operating at ISM (Industrial, Scientific, Medical) bands — specifically 2.45 GHz primary and 915 MHz secondary — provides global license-free operation without spectrum regulatory compliance overhead. WayvGear's ISM band application patents cover the specific methods of deploying RF plasma technology within ISM band constraints for controlled environment agriculture and industrial processing applications.
These patents address the unique challenges of ISM band RF plasma: managing radiated emissions within ISM limits, optimizing cavity coupling at fixed ISM frequencies (unlike swept-frequency approaches), and application-specific tuning methods for agricultural lighting spectra.
| Category | Type | Status | Registry |
|---|---|---|---|
| Plasma Ignition (Bifurcation) | Method Patent | Registered | KIPO |
| Plasma Ignition (Multi-condition) | Method Patent | Registered | KIPO |
| Plasma Ignition (Predictive) | Method Patent | Registered | KIPO |
| Multimode Cavity (KAM Geometry) | Method Patent | Registered | KIPO |
| Multimode Cavity (Chaotic Mixing) | Method Patent | Registered | KIPO |
| Multimode Cavity (Scalable Design) | Method Patent | Registered | KIPO |
| Impedance Matching (OGY) | Method Patent | Registered | KIPO |
| Impedance Matching (Pyragas) | Method Patent | Registered | KIPO |
| Impedance Matching (Combined) | Method Patent | Registered | KIPO |
| Impedance Matching (Real-time Network) | Method Patent | Registered | KIPO |
| ISM Band Application (2.45 GHz) | Method Patent | Registered | KIPO |
| ISM Band Application (Agricultural) | Method Patent | Registered | KIPO |
| ISM Band Emissions | Method Patent | Registered | KIPO |
| 915 MHz Secondary Band | Method Patent | Registered | KIPO |
| WayvGear (Brand) | Trademark | Registered | KIPO |
| AllianceNP (Brand) | Trademark | Registered | KIPO |
| CEA Integration Method | Method Patent | Pending | KIPO |
| 2026 Filing — Vertical Farm | Method Patent | Planned Q2 2026 | KIPO |
| 2026 Filing — Industrial CEA | Method Patent | Planned Q3 2026 | KIPO |
KJ Kim (Ki Joong Kim) is the principal inventor on all 14 registered WayvGear patents. His technical background spans nonlinear dynamical systems theory, plasma physics, and solid-state RF power amplifier design — the precise intersection required to develop physics-first RF plasma generation systems that are commercially viable.
The bifurcation analysis approach to plasma ignition, KAM theory application to cavity design, and OGY/Pyragas control for impedance matching all represent original applications of advanced mathematical frameworks to practical RF engineering challenges. This is not incremental improvement on existing approaches — it is a fundamentally different theoretical foundation for plasma generation system design.
WayvGear's IP portfolio is also registered under the AllianceNP umbrella — the same KJ Kim IP ownership structure — providing consistent chain of title across all commercial licensing activities.
WayvGear's patent portfolio is available for commercial licensing in ROW (rest of world) markets excluding Korea and Singapore, which are WayvGear's portfolio home markets. Licensing includes the full registered patent portfolio, technology transfer support, integration engineering, and ongoing royalty structure.
Target licensing markets include North America, Europe, Middle East, Southeast Asia, and Latin America for agriculture, industrial lighting, and manufacturing applications. KORUS FTA eligibility means Korean-manufactured systems enter the US market at 0–3% duty, improving landed economics for North American licensees.
For licensing inquiries: info@luxedeum.com